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Copernicu Copernicus Programme Copyright: Contains modified Copernicus Sentinel data (2015), processed by ESA Copyright: Copernicus Sentinel data (2016) Copernicus is the European Union’s revolutionary areas, regional and local planning, agriculture, COPERNICUSCOPERNICU Earth Observation and Monitoring programme, forestry, fisheries, health, transport, climate change, looking at our planet and its environment for the sustainable development, civil protection and tourism. ultimate benefit of all European citizens. PROGRAMME The development of the observation infrastructure Thanks to a variety of technologies, from satellites is performed under the aegis of the European Space e2v inside the Sentinel satellites in space to measurement systems on the ground, in Agency for the space component and of the European the sea and in the air, Copernicus delivers operational Environment Agency and the Member States for the in data and information services in six thematic areas: situ component. land, marine, atmosphere, climate change, emergency management and security. e2v is contributing to the programme with high performance hyperspectral imaging sensors designed They cover a wide range of applications including to perform aboard a number of instruments on the environment protection, management of urban Earth observation satellites. Copyright: Copernicus Sentinel data (2015)/ESA The Copernicus programme has received the financial assistance of the European Union and/or ESA. The views expressed herein can in no way be taken to reflect the official opinion of the European Union and/or ESA. e2v.com/space Copyright: Copernicus Sentinel data (2016)/ESA Copyright: Copernicus Sentinel data (2016)/ESA WE PARTNER WITH OUR CUSTOMERS TO IMPROVE, SAVE AND PROTECT PEOPLE’S LIVES Mission: ESA’s Sentinel 2A satellite. Mission: ESA’s and Netherlands Space Office NSO’s Objective:Polar-orbiting, multispectral Sentinel-5P. high-resolution imaging mission for land and Objective:Atmospheric monitoring and reduce data sea monitoring. gaps between Envisat, in particular the Sciamachy instrument, and the launch of Sentinel-5. e2v Sensor: CMOS sensors on Multispectral Instrument (MSI). e2v Sensor: CCD275-42 on TROPOspheric Monitoring Instrument (TROPOMI). Date of Launch: June 2015. Date of launch: 2016. More on e2v supply: e2v utilised its space-dedicated manufacturing capabilities to package, space qualify and More on e2v supply: e2v delivered CCD 275-42 deliver ‘flight model’ CMOS sensors to Airbus Defence for TROPOMI, an advanced spectrometer for the and Space, which designed the imaging device. operational monitoring of air quality, ozone and surface. The back illuminated CCD is optimised for The instrument is covering 13 spectral bands Uluru/Ayers Rock CMOS device packaged and tested by e2v Copyright: Copernicus Sentinel data different wavelengths, from Ultraviolet and Visible (443nm–2190nm) with a swath width of 290km using an Airbus die design on MSI (2015)/ESA to Near-infrared, it covers 7x7km^2 ground with a and spatial resolutions ranging from 10m to 60m. spectral range from 270–495nm to 710–775nm. The sensor is optimised for high frame transfer rates to reduce image smearing and it’s delivered in a special ceramic package. Sentinel-5P CCD275 on Tropomi Copyright: ESA/ATG medialab Mission: ESA’s Sentinel 3A satellite. Mission: EUMETSAT’s and ESA’s MetOp Second Objective:Multi-instrument mission to support ocean Generation satellite, a payload that will monitor the forecasting systems, as well as environmental and atmosphere from polar orbit. climate monitoring. Objective:Air quality monitoring, stratospheric Mississippi Copyright: Contains modified ozone monitoring, solar radiation measurements e2v Sensor: CCD55-20 on Ocean and Land Colour CCD55-20 on OLCI Copernicus Sentinel data [2016]/ESA Instrument (OLCI). and climate monitoring. Date of Launch: February 2016. e2v Sensor: CCD314 on Ultraviolet Visible Near- infrared Shortwave (UVNS) instrument/ESA’s More on e2v supply: e2v delivered CCD55-20, Mission: EUMETSAT’s and ESA’s Meteosat Third Sentinel-5. a high-performance, back-illuminated frame transfer Generation-Sounder (MTG-S) satellites in CCD image sensor optimised for hyperspectral geostationary orbit. Date of launch: 2020. imaging. The instrument has a spatial resolution of Objective:Atmospheric monitoring. More on e2v supply: e2v will provide CCD314 300m for all measurements and a swath width of e2v Sensor: CCD374 and CCD376 on Ultra-violet Visible optimised for the particular instrument design, 1270km. The optimised CCD includes the use of a Near-infrared (UVN) instrument/ESA’s Sentinel-4 mission. covering different wavelength from the Ultraviolet to ‘gated dump drain’ allowing the readout of selected Visible and Near-infrared (270nm–733nm). Date of launch: 2019. image lines and the dumping of unwanted data. It also Sentinel-5 Its spatial resolution is below 8km for wavelengths More on e2v supply: e2v will supply space qualified, CCD314 on Sentinel-5 Copyright: ESA/ATG medialab includes the use of graded thickness anti-reflection above 300nm. Its operating frequencies fit the optical custom CCD374 optimised for ultraviolet and visible coating to minimise sun-glint, giving the minimum requirements of the instrument in terms of large wavelengths and CCD376 optimised for Near-infrared. possible reflection from the silicon surface for all pixels for good signal-to-noise ratio. targeted wavelengths. They are both back illuminated for best Quantum Efficiency (QE) and Modulation Transfer Function (MTF) over the wavelength range of interest for this hyperspectral imaging system. The sensors are mounted in an e2v designed package assembly which manages the Sentinel-4 electrical, thermal, mechanical and optical interfaces to Mock-up of a back-thinned CCD374 on Sentinel-4 Copyright: ESA - P.Carril the instrument..
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